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480-output tft-lcd source driver (compatible with 256-gray scales) document s16450ej1v0pm00 date published may 2003 cp(k) printed in japan preliminary product information m os integrated circuit pd160083 2002 the information contained in this document is being issued in advance of the production cycle for the product. the parameters for the product may change before final production or nec electronics corporation, at its own discretion, may withdraw the product prior to its production. not all products and/or types are availabe in every country. please check with an nec electronics sales representative for availability and additional information. description the pd160083 is a source driver for tft-lcds capable of dealing with displays with 256-gray scales. data input is based on digital input configured as 8 bits by 3 dots (1 pixel) with double clock edge, which can realize a full-color display of 16,777,216 colors by output of 256 values -corrected by an internal d/a converter and 9-by-2 external power modules. because the output dynamic range is as large as v ss2 + 0.1 v to v dd2 ? 0.1 v, level inversion operation of the lcd?s common electrode is rendered unnecessary. also, to be able to deal with dot-line inversion, n-line inversion and column line inversion when mounted on a single side, this source driver is equipped with a built- in 8-bit d/a converter circuit whose odd output pins and even output pins respectively output gray scale voltages of differing polarity. assuring a clock frequency of 85 mhz when driving at 3.0 v, this driver is applicable to uxga- standard (1600 1200), sxga-standard (1280 1024) tft-lcd panels. features rsds tm (reduced swing differential signaling) interface 480 outputs input of 8 bits (gradation data) by 3 dots with double clock edge sampling capable of outputting 256 values by means of 9-by-2 external power modules (18 units) and a d/a converter logic power supply voltage (v dd1 ): 2.7 to 3.6 v driver power supply voltage (v dd2 ): 10.5 to 13.5 v output dynamic range: v ss2 + 0.1 v to v dd2 ? 0.1 v high-speed data transfer: f clk = 85mhz max. (internal data transfer speed when operating at v dd1 = 3.0 v) apply for dot-line inversion, n-line inversion and column line inversion output voltage polarity inversion function (pol) input data inversion function (inv) controiable output short function (mode1 to mode3) remark rsds tm is a trademark of national semiconductor corporation. ordering information part number package pd160083n-xxx tcp (tab package) pd160083nl-xxx cof (cof package) remark the tcp/cof?s external shape is customized. to order the required shape, so please contact one of our sales representatives
preliminary product information s16450ej1v0pm00 2 pd160083 1. block diagram sthl v dd1a v ss1a v dd2 v ss2 s 2 s 1 v 0- v 17 pol d 00p - d 03p , d 00n - d 03n stb clkp, clkn data register latch level shifter d/a converter voltage follower output r,/l sthr d 10p - d 13p , d 10n - d 13n d 20p - d 23p , d 20n - d 23n s 3 s 480 inv lpc 80-bit bidirectional shift register x 2 mode1 mode3 mode2 (input pin) test rpo1 rpo2 rpi1 rpi2 line repair amp. v dd1d v ss1d remark /xxx indicates active low signal.
preliminary product information s16450ej1v0pm00 3 pd160083 2. pin configuration ( pd160083n- : tcp) (copper foil surface, face-up) s480 s479 rpi2 s478 rpo2 s477 vss2 v17 v16 v15 v14 v13 v12 v11 v10 v9 vdd2 (vss1a) d23p d23n (vss1a) d22p d22n (vss1a) d21p d21n (vss1a) d20p d20n (vss1a) d13p d13n (vss1a) d12p d12n (vss1a) d11p d11n (vss1a) d10p d10n (vss1a) r,/l pol inv vdd1a vdd1d lpc sthl sthr vss1d vss1a mode 1 mode 2 mode 3 (vss1a) clkp clkn (vss1a) stb (vss1a) d03p d03n (vss1a) d02p d02n (vss1a) d01p d01n (vss1a) d00p d00n (vss1a) vdd2 v8 v7 v6 v5 v4 v3 v2 v1 v0 vss2 s3 rpo1 s2 rpi1 s1 c opper foil s urface remark 1. this figure does not specify the tcp package. 2. (v ss1a ) is recommended to connect to analog gnd on pcb for the return current of transmission line. and please don ? t use these pins for power supply terminal with dynamic current.
preliminary product information s16450ej1v0pm00 4 pd160083 3. pin functions (1/2) pin symbol pin name i/o description s 1 to s 480 driver output the d/a converted 256-gray-scale analog voltage is output. d 00p to d 03p , d 00n to d 03n d 10p to d 13p , d 10n to d 13n d 20p to d 23p , d 20n to d 23n display data (rsds) input the display data is input with a width of 12 bits by double edge, viz., the gray scale data (8 bits) by 3 dots (1 pixel). r,/l (cmos) shift direction control input these refer to the start pulse input/output pins when driver ics are connected in cascade. the shift directions of the shift registers are as follows. r,/l = h (v dd1 level): sthr input, s 1 s 480 , sthl output r,/l = l (v ss1 level): sthl input, s 480 s 1 , sthr output sthr (cmos) right shift start pulse i/o r,/l = h (v dd1 level): becomes the start pulse input pin. r,/l = l (v ss1 level): becomes the start pulse output pin. sthl (cmos) left shift start i/o r,/l = h (v dd1 level): becomes the start pulse output pin. r,/l = l (v ss1 level): becomes the start pulse input pin. clkp, clkn (rsds) shift clock input refers to the shift register ? s shift clock input. the display data is incorporated into the data register at both of rising and falling edge. at the falling edge of the 160th clock after the start pulse input, the start pulse output reaches the high level, thus becoming the start pulse of the next-level driver. stb (cmos) latch input the contents of the data register are transferred to the latch circuit at the rising edge. and the output timing and output short function are controlled by mode1 to mode3. please refer to 8. relationship between stb, pol, mode1 to mode3 and output waveform for more detail. it is necessary to ensure input of one pulse per horizontal period. pol (cmos) polarity input pol = h (v dd1 level): the s 2n ? 1 output uses v 0 -v 8 as the reference supply. the s 2n output uses v 9 -v 17 as the reference supply. pol = l (v ss1 level): the s 2n ? 1 output uses v 9 -v 17 as the reference supply. the s 2n output uses v 0 -v 8 as the reference supply. s 2n-1 indicates the odd output: and s 2n indicates the even output. input of the pol signal is allowed the setup time (t pol - stb ) with respect to stb ? s rising edge. inv (cmos) data inversion input data inversion can invert when display data is loaded. inv = h (v dd1 level): data inversion loads display data after inverting it. inv = l (v ss1 level): data inversion does not invert input data. please input dc signal. for details, refer to 6. data inversion. lpc low power control input lpc = l or open: normal mode (default) lpc = h: low power mode (35% lower than noamal mode) this pin is pulled down to the v ss1d inside the ic. this pin controls the output short function. mode1 mode2 mode3 output short remark h or open x x non-active output short circuit off h or open x active during stb = h h or open h or open during 34 clk after stb falling l l l l during 68 clk after stb falling mode1 to mode3 output short contro input remark x: h or l output short function works only when pol signal is changed from previous line. this pin is pulled up to v dd1d inside the ic.
preliminary product information s16450ej1v0pm00 5 pd160083 (2/2) pin symbol pin name i/o description rpi1, rpi2 input rpo1, rpo2 line-repair amp. output the driver-ability of the line-repair amp is around twice of the normal analog output s 1 to s 480 . and these outputs are changed at the rising edge of stb and don ? t have hi-z (high impedance) period. rpi1 (rpi2) impedance changed rpo1 (rpo2) test test input test = h or open: normal operation mode test = l: test mode v 0 -v 17 -corrected power supplies ? input the -corrected power supplies from outside by using operational amplifier. make sure to maintain the following relationships. during the gray scale voltage output, be sure to keep the gray scale level power supply at a constant level. v dd2 ? 0.1 v v 0 > v 1 > v 2 > v 3 > v 4 > v 5 > v 6 > v 7 > v 8 0.5 v dd2 0.5 v dd2 v 9 > v 10 > v 11 >v 12 > v 13 > v 14 >v 5 > v 16 > v 17 v ss2 + 0.1 v v dd1d/a logic power supply ? 2.7 to 3.6 v v dd2 driver power supply ? 10.5 to 13.5 v v ss1d/a logic ground ? grounding v ss2 driver ground ? grounding cautions 1. the power on sequence must be v dd1d , v dd1a , logic input, and v dd2 and v 0 -v 17 in that order. reverse this sequence to shut down (simultaneous power application to v dd2 and v 0 -v 17 is possible.). 2. to stabilize the supply voltage, please be sure to insert a 0.1 f bypass capacitor between v dd1d , v dd1a -v ss1d , v dd1a and v dd2 -v ss2 . furthermore, for increased precision of the d/a converter, insertion of a bypass capacitor of about 0.01 f is also advised between the - corrected power supply pins (v 0 , v 1 , v 2 , , v 17 ) and v ss2 . 3. because of the large power consumption of this driver ic, it is necessary to pay attention to the driver ic's temperature for the junction temperature. so, it should be considered to use the suitable mechanical design for the heat spreading and use the lpc function and the output reset function for the power reduction. especially, it is recommended to measure the temperature of the driver ic surface.
preliminary product information s16450ej1v0pm00 6 pd160083 4. relationship between input data and output voltage value the pd160083 incorporates a 8-bit d/a converter whose odd output pins and even output pins output respectively gray scale voltages of differing polarity with respect to the lcd ? s counter electrode (common electrode) voltage. the d/a converter consists of ladder resistors and switches. the ladder resistors (r0 to r255) are designed so that the ratio of lcd panel -compensated voltages to v 0 ? -v 255 ? and v 0 ? -v 255 ? is almost equivalent, therefore, each resistance value indicates figure 4 ? 2. for the 2 sets of 9 -compensated power supplies, v 0 -v 8 and v 9 -v 17 , respectively, input gray scale voltages of the same polarity with respect to the common voltage figure 4 ? 1 shows the relationship between the driving voltages such as liquid-crystal driving voltages v dd2 , v ss2 and 0.5 v dd2 , and -corrected voltages v 0 -v 17 and the input data. be sure to maintain the voltage relationships below. v dd2 ? 0.1 v v 0 >v 1 >v 2 >v 3 >v 4 >v 5 >v 6 >v 7 >v 8 0.5 v dd2 0.5 v dd2 v 9 >v 10 >v 11 >v 12 >v 13 >v 14 >v 15 >v 16 >v 17 v ss2 + 0.1 v figures 4 ? 2 shows -corrected voltages and ladder resistors ratio and figure 4 ? 3 shows relationship between the input data and the output voltage. figure 4 ? ? ? ? 1. relationship between input data and -corrected power supply v 1 v 2 v 3 v 4 00 01 20 40 80 v 6 v 8 30 30 0.1 v 0.1 v input data (hex.) 1 1 1 64 64 64 64 32 32 32 31 31 1 32 0.5 v dd2 v 5 v 7 v 0 v dd2 v 9 v 10 v 11 v 12 v 14 v 16 v 13 v 15 v ss2 v 17 fe e0 c0 ff
preliminary product information s16450ej1v0pm00 7 pd160083 figure 4 ? ? ? ? 2. -corrected voltages and ladder resistors ratio v 0 v 33 ?? v 32 ?? v 31 ?? v 1 ?? v 2 ?? v 0 ?? v 254 ?? v 253 ?? v 225 ?? v 224 ?? v 223 ?? r253 r252 r225 r224 r223 r222 v 2 r254 r33 r32 r31 r30 v 15 r255 v 17 v 255 ?? v 9 v 223 ? v 224 ? v 225 ? v 252 ? v 253 ? v 254 ? v 2 ? v 3 ? v 31 ? v 32 ? v 33 ? r2 r3 r30 r31 r32 r33 v 1 r1 r222 r223 r224 r251 r252 r253 v 6 v 7 v 1 ? r0 r2 r1 r0 v 0 ? v 255 ? r254 r255 v 8 v 10 v 252 ?? r251 v 11 v 16 caution there is no connection between v 8 and v 9 pin inside the ic. rn ratio value rn ratio value rn ratio value rn ratio value r0 3 1.50 6 30 r 64 2 .25 4 5 r 128 1.00 20 r192 1.00 2 0 r1 2 7.50 5 50 r 65 2 .25 4 5 r 129 1.00 20 r193 1.00 2 0 r2 2 4.00 4 80 r 66 2 .25 4 5 r 130 1.00 20 r194 1.00 2 0 r3 2 1.50 4 30 r 67 2 .25 4 5 r 131 1.00 20 r195 1.00 2 0 r4 1 9.00 3 80 r 68 2 .00 4 0 r 132 1.00 20 r196 1.25 2 5 r5 1 7.50 3 50 r 69 2 .00 4 0 r 133 1.00 20 r197 1.25 2 5 r6 1 6.50 3 30 r 70 2 .00 4 0 r 134 1.00 20 r198 1.25 2 5 r7 1 5.00 3 00 r 71 2 .00 4 0 r 135 1.00 20 r199 1.25 2 5 r8 1 4.00 2 80 r 72 2 .00 4 0 r 136 1.00 20 r200 1.25 2 5 r9 1 3.00 2 60 r 73 2 .00 4 0 r 137 1.00 20 r201 1.25 2 5 r10 1 2.00 2 40 r 74 2 .00 4 0 r 138 1.00 20 r202 1.25 2 5 r11 1 1.00 2 20 r 75 2 .00 4 0 r 139 1.00 20 r203 1.25 2 5 r12 1 0.00 2 00 r 76 1 .75 3 5 r 140 1.00 20 r204 1.25 2 5 r13 9 .50 1 90 r 77 1 .75 3 5 r 141 1.00 20 r205 1.25 2 5 r14 9 .50 1 90 r 78 1 .75 3 5 r 142 1.00 20 r206 1.25 2 5 r15 9 .00 1 80 r 79 1 .75 3 5 r 143 1.00 20 r207 1.25 2 5 r16 8 .50 1 70 r 80 1 .75 3 5 r 144 1.00 20 r208 1.25 2 5 r17 8 .00 1 60 r 81 1 .75 3 5 r 145 1.00 20 r209 1.25 2 5 r18 7 .50 1 50 r 82 1 .75 3 5 r 146 1.00 20 r210 1.25 2 5 r19 7 .50 1 50 r 83 1 .75 3 5 r 147 1.00 20 r211 1.25 2 5 r20 7 .00 1 40 r 84 1 .75 3 5 r 148 1.00 20 r212 1.25 2 5 r21 6 .50 1 30 r 85 1 .75 3 5 r 149 1.00 20 r213 1.25 2 5 r22 6 .50 1 30 r 86 1 .50 3 0 r 150 1.00 20 r214 1.25 2 5 r23 6 .00 1 20 r 87 1 .50 3 0 r 151 1.00 20 r215 1.25 2 5 r24 6 .00 1 20 r 88 1 .50 3 0 r 152 1.00 20 r216 1.25 2 5 r25 5 .50 1 10 r 89 1 .50 3 0 r 153 1.00 20 r217 1.25 2 5 r26 5 .50 1 10 r 90 1 .50 3 0 r 154 1.00 20 r218 1.50 3 0 r27 5 .50 1 10 r 91 1 .50 3 0 r 155 1.00 20 r219 1.50 3 0 r28 5 .00 1 00 r 92 1 .50 3 0 r 156 1.00 20 r220 1.50 3 0 r29 5 .00 1 00 r 93 1 .50 3 0 r 157 1.00 20 r221 1.50 3 0 r30 5 .00 1 00 r 94 1 .50 3 0 r 158 1.00 20 r222 1.50 3 0 r31 4 .50 9 0 r 95 1 .50 3 0 r 159 1.00 20 r223 1.50 3 0 r32 4 .50 9 0 r 96 1 .50 3 0 r 160 1.00 20 r224 1.50 3 0 r33 4 .50 9 0 r 97 1 .50 3 0 r 161 1.00 20 r225 2.00 4 0 r34 4 .00 8 0 r 98 1 .50 3 0 r 162 1.00 20 r226 2.00 4 0 r35 4 .00 8 0 r 99 1 .50 3 0 r 163 1.00 20 r227 2.00 4 0 r36 4 .00 8 0 r 100 1 .50 3 0 r 164 1.00 20 r228 2.00 4 0 r37 4 .00 8 0 r 101 1 .50 3 0 r 165 1.00 20 r229 2.00 4 0 r38 3 .75 7 5 r 102 1 .50 3 0 r 166 1.00 20 r230 2.50 5 0 r39 3 .75 7 5 r 103 1 .50 3 0 r 167 1.00 20 r231 2.50 5 0 r40 3 .50 7 0 r 104 1 .50 3 0 r 168 1.00 20 r232 2.50 5 0 r41 3 .50 7 0 r 105 1 .50 3 0 r 169 1.00 20 r233 3.00 6 0 r42 3 .50 7 0 r 106 1 .50 3 0 r 170 1.00 20 r234 3.00 6 0 r43 3 .50 7 0 r 107 1 .50 3 0 r 171 1.00 20 r235 3.00 6 0 r44 3 .25 6 5 r 108 1 .50 3 0 r 172 1.00 20 r236 3.50 7 0 r45 3 .25 6 5 r 109 1 .50 3 0 r 173 1.00 20 r237 3.50 7 0 r46 3 .00 6 0 r 110 1 .25 2 5 r 174 1.00 20 r238 4.00 8 0 r47 3 .00 6 0 r 111 1 .25 2 5 r 175 1.00 20 r239 4.00 8 0 r48 3 .00 6 0 r 112 1 .25 2 5 r 176 1.00 20 r240 4.50 9 0 r49 3 .00 6 0 r 113 1 .25 2 5 r 177 1.00 20 r241 5.00 1 00 r50 3 .00 6 0 r 114 1 .25 2 5 r 178 1.00 20 r242 5.00 1 00 r51 3 .00 6 0 r 115 1 .25 2 5 r 179 1.00 20 r243 5.50 1 10 r52 2 .75 5 5 r 116 1 .25 2 5 r 180 1.00 20 r244 6.00 1 20 r53 2 .75 5 5 r 117 1 .25 2 5 r 181 1.00 20 r245 6.50 1 30 r54 2 .75 5 5 r 118 1 .25 2 5 r 182 1.00 20 r246 7.00 1 40 r55 2 .75 5 5 r 119 1 .25 2 5 r 183 1.00 20 r247 7.50 1 50 r56 2 .50 5 0 r 120 1 .25 2 5 r 184 1.00 20 r248 8.00 1 60 r57 2 .50 5 0 r 121 1 .25 2 5 r 185 1.00 20 r249 8.50 1 70 r58 2 .50 5 0 r 122 1 .25 2 5 r 186 1.00 20 r250 9.00 1 80 r59 2 .50 5 0 r 123 1 .25 2 5 r 187 1.00 20 r251 9.50 1 90 r60 2 .50 5 0 r 124 1 .25 2 5 r 188 1.00 20 r252 10.50 2 10 r61 2 .50 5 0 r 125 1 .25 2 5 r 189 1.00 20 r253 11.50 2 30 r62 2 .25 4 5 r 126 1 .00 2 0 r 190 1.00 20 r254 12.50 2 50 r63 2 .25 4 5 r 127 1 .00 2 0 r 191 1.00 20 r255 25.00 5 00
preliminary product information s16450ej1v0pm00 8 pd160083 figure 4 ? ? ? ? 3. relationship between input data and output voltage (1/2) (output voltage 1) v dd2 ? 0.1 v v 0 > v 1 > v 2 > v 3 > v 4 > v 5 > v 6 > v 7 > v 8 0.5 v dd2 dat a dat a dat a dat a 00h v0' v0 40h v64' v3 80h v128' v4 c0h v192' v5 01h v1' v1 41h v65' v3+(v4-v3) x 45 / 2010 81h v129' v4+(v5-v4) x 20 / 1280 c1h v193' v5+(v6-v5) x 20 / 810 02h v2' v1+(v2-v1) x 550 / 6570 42h v66' v3+(v4-v3) x 90 / 2010 82h v130' v4+(v5-v4) x 40 / 1280 c2h v194' v5+(v6-v5) x 40 / 810 03h v3' v1+(v2-v1) x 1030 / 6570 43h v67' v3+(v4-v3) x 135 / 2010 83h v131' v4+(v5-v4) x 60 / 1280 c3h v195' v5+(v6-v5) x 60 / 810 04h v3' v1+(v2-v1) x 1460 / 6570 44h v68' v3+(v4-v3) x 180 / 2010 84h v132' v4+(v5-v4) x 80 / 1280 c4h v196' v5+(v6-v5) x 80 / 810 05h v5' v1+(v2-v1) x 1840 / 6570 45h v69' v3+(v4-v3) x 220 / 2010 85h v133' v4+(v5-v4) x 100 / 1280 c5h v197' v5+(v6-v5) x 105 / 810 06h v6' v1+(v2-v1) x 2190 / 6570 46h v70' v3+(v4-v3) x 260 / 2010 86h v134' v4+(v5-v4) x 120 / 1280 c6h v198' v5+(v6-v5) x 130 / 810 07h v7' v1+(v2-v1) x 2520 / 6570 47h v71' v3+(v4-v3) x 300 / 2010 87h v135' v4+(v5-v4) x 140 / 1280 c7h v199' v5+(v6-v5) x 155 / 810 08h v8' v1+(v2-v1) x 2820 / 6570 48h v72' v3+(v4-v3) x 340 / 2010 88h v136' v4+(v5-v4) x 160 / 1280 c8h v200' v5+(v6-v5) x 180 / 810 09h v9' v1+(v2-v1) x 3100 / 6570 49h v73' v3+(v4-v3) x 380 / 2010 89h v137' v4+(v5-v4) x 180 / 1280 c9h v201' v5+(v6-v5) x 205 / 810 0ah v10' v1+(v2-v1) x 3360 / 6570 4ah v74' v3+(v4-v3) x 420 / 2010 8ah v138' v4+(v5-v4) x 200 / 1280 cah v202' v5+(v6-v5) x 230 / 810 0bh v11' v1+(v2-v1) x 3600 / 6570 4bh v75' v3+(v4-v3) x 460 / 2010 8bh v139' v4+(v5-v4) x 220 / 1280 cbh v203' v5+(v6-v5) x 255 / 810 0ch v12' v1+(v2-v1) x 3820 / 6570 4ch v76' v3+(v4-v3) x 500 / 2010 8ch v140' v4+(v5-v4) x 240 / 1280 cch v204' v5+(v6-v5) x 280 / 810 0dh v13' v1+(v2-v1) x 4020 / 6570 4dh v77' v3+(v4-v3) x 535 / 2010 8dh v141' v4+(v5-v4) x 260 / 1280 cdh v205' v5+(v6-v5) x 305 / 810 0eh v14' v1+(v2-v1) x 4210 / 6570 4eh v78' v3+(v4-v3) x 570 / 2010 8eh v142' v4+(v5-v4) x 280 / 1280 ceh v206' v5+(v6-v5) x 330 / 810 0fh v15' v1+(v2-v1) x 4400 / 6570 4fh v79' v3+(v4-v3) x 605 / 2010 8fh v143' v4+(v5-v4) x 300 / 1280 cfh v207' v5+(v6-v5) x 355 / 810 10h v16' v1+(v2-v1) x 4580 / 6570 50h v80' v3+(v4-v3) x 640 / 2010 90h v144' v4+(v5-v4) x 320 / 1280 d0h v208' v5+(v6-v5) x 380 / 810 11h v17' v1+(v2-v1) x 4750 / 6570 51h v81' v3+(v4-v3) x 675 / 2010 91h v145' v4+(v5-v4) x 340 / 1280 d1h v209' v5+(v6-v5) x 405 / 810 12h v18' v1+(v2-v1) x 4910 / 6570 52h v82' v3+(v4-v3) x 710 / 2010 92h v146' v4+(v5-v4) x 360 / 1280 d2h v210' v5+(v6-v5) x 430 / 810 13h v19' v1+(v2-v1) x 5060 / 6570 53h v83' v3+(v4-v3) x 745 / 2010 93h v147' v4+(v5-v4) x 380 / 1280 d3h v211' v5+(v6-v5) x 455 / 810 14h v20' v1+(v2-v1) x 5210 / 6570 54h v84' v3+(v4-v3) x 780 / 2010 94h v148' v4+(v5-v4) x 400 / 1280 d4h v212' v5+(v6-v5) x 480 / 810 15h v21' v1+(v2-v1) x 5350 / 6570 55h v85' v3+(v4-v3) x 815 / 2010 95h v149' v4+(v5-v4) x 420 / 1280 d5h v213' v5+(v6-v5) x 505 / 810 16h v22' v1+(v2-v1) x 5480 / 6570 56h v86' v3+(v4-v3) x 850 / 2010 96h v150' v4+(v5-v4) x 440 / 1280 d6h v214' v5+(v6-v5) x 530 / 810 17h v23' v1+(v2-v1) x 5610 / 6570 57h v87' v3+(v4-v3) x 880 / 2010 97h v151' v4+(v5-v4) x 460 / 1280 d7h v215' v5+(v6-v5) x 555 / 810 18h v24' v1+(v2-v1) x 5730 / 6570 58h v88' v3+(v4-v3) x 910 / 2010 98h v152' v4+(v5-v4) x 480 / 1280 d8h v216' v5+(v6-v5) x 580 / 810 19h v25' v1+(v2-v1) x 5850 / 6570 59h v89' v3+(v4-v3) x 940 / 2010 99h v153' v4+(v5-v4) x 500 / 1280 d9h v217' v5+(v6-v5) x 605 / 810 1ah v26' v1+(v2-v1) x 5960 / 6570 5ah v90' v3+(v4-v3) x 970 / 2010 9ah v154' v4+(v5-v4) x 520 / 1280 dah v218' v5+(v6-v5) x 630 / 810 1bh v27' v1+(v2-v1) x 6070 / 6570 5bh v91' v3+(v4-v3) x 1000 / 2010 9bh v155' v4+(v5-v4) x 540 / 1280 dbh v219' v5+(v6-v5) x 660 / 810 1ch v28' v1+(v2-v1) x 6180 / 6570 5ch v92' v3+(v4-v3) x 1030 / 2010 9ch v156' v4+(v5-v4) x 560 / 1280 dch v220' v5+(v6-v5) x 690 / 810 1dh v29' v1+(v2-v1) x 6280 / 6570 5dh v93' v3+(v4-v3) x 1060 / 2010 9dh v157' v4+(v5-v4) x 580 / 1280 ddh v221' v5+(v6-v5) x 720 / 810 1eh v30' v1+(v2-v1) x 6380 / 6570 5eh v94' v3+(v4-v3) x 1090 / 2010 9eh v158' v4+(v5-v4) x 600 / 1280 deh v222' v5+(v6-v5) x 750 / 810 1fh v31' v1+(v2-v1) x 6480 / 6570 5fh v95' v3+(v4-v3) x 1120 / 2010 9fh v159' v4+(v5-v4) x 620 / 1280 dfh v223' v5+(v6-v5) x 780 / 810 20h v32' v2 60h v96' v3+(v4-v3) x 1150 / 2010 a0h v160' v4+(v5-v4) x 640 1280 e0h v224' v6 21h v33' v2+(v3-v2) x 90 / 2030 61h v97' v3+(v4-v3) x 1180 / 2010 a1h v161' v4+(v5-v4) x 660 / 1280 e1h v225' v6+(v7-v6) x 30 / 2940 22h v34' v2+(v3-v2) x 180 / 2030 62h v98' v3+(v4-v3) x 1210 / 2010 a2h v162' v4+(v5-v4) x 680 / 1280 e2h v226' v6+(v7-v6) x 70 / 2940 23h v35' v2+(v3-v2) x 260 / 2030 63h v99' v3+(v4-v3) x 1240 / 2010 a3h v163' v4+(v5-v4) x 700 / 1280 e3h v227' v6+(v7-v6) x 110 / 2940 24h v36' v2+(v3-v2) x 340 / 2030 64h v100' v3+(v4-v3) x 1270 / 2010 a4h v164' v4+(v5-v4) x 720 / 1280 e4h v228' v6+(v7-v6) x 150 / 2940 25h v37' v2+(v3-v2) x 420 / 2030 65h v101' v3+(v4-v3) x 1300 / 2010 a5h v165' v4+(v5-v4) x 740 / 1280 e5h v229' v6+(v7-v6) x 190 / 2940 26h v38' v2+(v3-v2) x 500 / 2030 66h v102' v3+(v4-v3) x 1330 / 2010 a6h v166' v4+(v5-v4) x 760 / 1280 e6h v230' v6+(v7-v6) x 230 / 2940 27h v39' v2+(v3-v2) x 575 / 2030 67h v103' v3+(v4-v3) x 1360 / 2010 a7h v167' v4+(v5-v4) x 780 / 1280 e7h v231' v6+(v7-v6) x 280 / 2940 28h v30' v2+(v3-v2) x 650 / 2030 68h v104' v3+(v4-v3) x 1390 / 2010 a8h v168' v4+(v5-v4) x 800 / 1280 e8h v232' v6+(v7-v6) x 330 / 2940 29h v41' v2+(v3-v2) x 720 / 2030 69h v105' v3+(v4-v3) x 1420 / 2010 a9h v169' v4+(v5-v4) x 820 / 1280 e9h v233' v6+(v7-v6) x 380 / 2940 2ah v42' v2+(v3-v2) x 790 / 2030 6ah v106' v3+(v4-v3) x 1450 / 2010 aah v170' v4+(v5-v4) x 840 / 1280 eah v234' v6+(v7-v6) x 440 / 2940 2bh v43' v2+(v3-v2) x 860 / 2030 6bh v107' v3+(v4-v3) x 1480 / 2010 abh v171' v4+(v5-v4) x 860 / 1280 ebh v235' v6+(v7-v6) x 500 / 2940 2ch v44' v2+(v3-v2) x 930 / 2030 6ch v108' v3+(v4-v3) x 1510 / 2010 ach v172' v4+(v5-v4) x 880 / 1280 ech v236' v6+(v7-v6) x 560 / 2940 2dh v45' v2+(v3-v2) x 995 / 2030 6dh v109' v3+(v4-v3) x 1540 / 2010 adh v173' v4+(v5-v4) x 900 / 1280 edh v237' v6+(v7-v6) x 630 / 2940 2eh v46' v2+(v3-v2) x 1060 / 2030 6eh v110' v3+(v4-v3) x 1570 / 2010 aeh v174' v4+(v5-v4) x 920 / 1280 eeh v238' v6+(v7-v6) x 700 / 2940 2fh v47' v2+(v3-v2) x 1120 / 2030 6fh v111' v3+(v4-v3) x 1595 / 2010 afh v175' v4+(v5-v4) x 940 / 1280 efh v239' v6+(v7-v6) x 780 / 2940 30h v48' v2+(v3-v2) x 1180 / 2030 70h v112' v3+(v4-v3) x 1620 / 2010 b0h v176' v4+(v5-v4) x 960 / 1280 f0h v240' v6+(v7-v6) x 860 / 2940 31h v49' v2+(v3-v2) x 1240 / 2030 71h v113' v3+(v4-v3) x 1645 / 2010 b1h v177' v4+(v5-v4) x 980 / 1280 f1h v241' v6+(v7-v6) x 950 / 2940 32h v50' v2+(v3-v2) x 1300 / 2030 72h v114' v3+(v4-v3) x 1670 / 2010 b2h v178' v4+(v5-v4) x 1000 / 1280 f2h v242' v6+(v7-v6) x 1050 / 2940 33h v51' v2+(v3-v2) x 1360 / 2030 73h v115' v3+(v4-v3) x 1695 / 2010 b3h v179' v4+(v5-v4) x 1020 / 1280 f3h v243' v6+(v7-v6) x 1150 / 2940 34h v52' v2+(v3-v2) x 1420 / 2030 74h v116' v3+(v4-v3) x 1720 / 2010 b4h v180' v4+(v5-v4) x 1040 / 1280 f4h v244' v6+(v7-v6) x 1260 / 2940 35h v53' v2+(v3-v2) x 1475 / 2030 75h v117' v3+(v4-v3) x 1745 / 2010 b5h v181' v4+(v5-v4) x 1060 / 1280 f5h v245' v6+(v7-v6) x 1380 / 2940 36h v54' v2+(v3-v2) x 1530 / 2030 76h v118' v3+(v4-v3) x 1770 / 2010 b6h v182' v4+(v5-v4) x 1080 / 1280 f6h v246' v6+(v7-v6) x 1510 / 2940 37h v55' v2+(v3-v2) x 1585 / 2030 77h v119' v3+(v4-v3) x 1795 / 2010 b7h v183' v4+(v5-v4) x 1100 / 1280 f7h v247' v6+(v7-v6) x 1650 / 2940 38h v56' v2+(v3-v2) x 1640 / 2030 78h v120' v3+(v4-v3) x 1820 / 2010 b8h v184' v4+(v5-v4) x 1120 / 1280 f8h v248' v6+(v7-v6) x 1800 / 2940 39h v57' v2+(v3-v2) x 1690 / 2030 79h v121' v3+(v4-v3) x 1845 / 2010 b9h v185' v4+(v5-v4) x 1140 / 1280 f9h v249' v6+(v7-v6) x 1960 / 2940 3ah v58' v2+(v3-v2) x 1740 / 2030 7ah v122' v3+(v4-v3) x 1870 / 2010 bah v186' v4+(v5-v4) x 1160 / 1280 fah v250' v6+(v7-v6) x 2130 / 2940 3bh v59' v2+(v3-v2) x 1790 / 2030 7bh v123' v3+(v4-v3) x 1895 / 2010 bbh v187' v4+(v5-v4) x 1180 / 1280 fbh v251' v6+(v7-v6) x 2310 / 2940 3ch v60' v2+(v3-v2) x 1840 / 2030 7ch v124' v3+(v4-v3) x 1920 / 2010 bch v188' v4+(v5-v4) x 1200 / 1280 fch v252' v6+(v7-v6) x 2500 / 2940 3dh v61' v2+(v3-v2) x 1890 / 2030 7dh v125' v3+(v4-v3) x 1945 / 2010 bdh v189' v4+(v5-v4) x 1220 / 1280 fdh v253' v6+(v7-v6) x 2710 / 2940 3eh v62' v2+(v3-v2) x 1940 / 2030 7eh v126' v3+(v4-v3) x 1970 / 2010 beh v190' v4+(v5-v4) x 1240 / 1280 feh v254' v7 3fh v63' v2+(v3-v2) x 1985 / 2030 7fh v127' v3+(v4-v3) x 1990 / 2010 bfh v191' v4+(v5-v4) x 1260 / 1280 ffh v255' v8 output vol tage output vol tage output vol tage output vol tage
preliminary product information s16450ej1v0pm00 9 pd160083 figure 4 ? ? ? ? 3. relationship between input data and output voltage (2/2) (output voltage 2) 0.5 v dd2 v 9 > v 10 > v 11 > v 12 > v 13 > v 14 > v 15 > v 16 > v 17 v ss2 + 0.1 v dat a dat a dat a dat a 00h v0" v17 40h v64" v14 80h v128" v13 c0h v192" v12 01h v1" v16 41h v65" v14+(v13-v14) x 45 / 2010 81h v129" v13+(v12-v13) x 20 / 1280 c1h v193" v12+(v11-v12) x 20 / 810 02h v2" v16+(v15-v16) x 550 / 6570 42h v66" v14+(v13-v14) x 90 / 2010 82h v130" v13+(v12-v13) x 40 / 1280 c2h v194" v12+(v11-v12) x 40 / 810 03h v3" v16+(v15-v16) x 1030 / 6570 43h v67" v14+(v13-v14) x 135 / 2010 83h v131" v13+(v12-v13) x 60 / 1280 c3h v195" v12+(v11-v12) x 60 / 810 04h v4" v16+(v15-v16) x 1460 / 6570 44h v68" v14+(v13-v14) x 180 / 2010 84h v132" v13+(v12-v13) x 80 / 1280 c4h v196" v12+(v11-v12) x 80 / 810 05h v5" v16+(v15-v16) x 1840 / 6570 45h v69" v14+(v13-v14) x 220 / 2010 85h v133" v13+(v12-v13) x 100 / 1280 c5h v197" v12+(v11-v12) x 105 / 810 06h v6" v16+(v15-v16) x 2190 / 6570 46h v70" v14+(v13-v14) x 260 / 2010 86h v134" v13+(v12-v13) x 120 / 1280 c6h v198" v12+(v11-v12) x 130 / 810 07h v7" v16+(v15-v16) x 2520 / 6570 47h v71" v14+(v13-v14) x 300 / 2010 87h v135" v13+(v12-v13) x 140 / 1280 c7h v199" v12+(v11-v12) x 155 / 810 08h v8" v16+(v15-v16) x 2820 / 6570 48h v72" v14+(v13-v14) x 340 / 2010 88h v136" v13+(v12-v13) x 160 / 1280 c8h v200" v12+(v11-v12) x 180 / 810 09h v9" v16+(v15-v16) x 3100 / 6570 49h v73" v14+(v13-v14) x 380 / 2010 89h v137" v13+(v12-v13) x 180 / 1280 c9h v201" v12+(v11-v12) x 205 / 810 0ah v10" v16+(v15-v16) x 3360 / 6570 4ah v74" v14+(v13-v14) x 420 / 2010 8ah v138" v13+(v12-v13) x 200 / 1280 cah v202" v12+(v11-v12) x 230 / 810 0bh v11" v16+(v15-v16) x 3600 / 6570 4bh v75" v14+(v13-v14) x 460 / 2010 8bh v139" v13+(v12-v13) x 220 / 1280 cbh v203" v12+(v11-v12) x 255 / 810 0ch v12" v16+(v15-v16) x 3820 / 6570 4ch v76" v14+(v13-v14) x 500 / 2010 8ch v140" v13+(v12-v13) x 240 / 1280 cch v204" v12+(v11-v12) x 280 / 810 0dh v13" v16+(v15-v16) x 4020 / 6570 4dh v77" v14+(v13-v14) x 535 / 2010 8dh v141" v13+(v12-v13) x 260 / 1280 cdh v205" v12+(v11-v12) x 305 / 810 0eh v14" v16+(v15-v16) x 4210 / 6570 4eh v78" v14+(v13-v14) x 570 / 2010 8eh v142" v13+(v12-v13) x 280 / 1280 ceh v206" v12+(v11-v12) x 330 / 810 0fh v15" v16+(v15-v16) x 4400 / 6570 4fh v79" v14+(v13-v14) x 605 / 2010 8fh v143" v13+(v12-v13) x 300 / 1280 cfh v207" v12+(v11-v12) x 355 / 810 10h v16" v16+(v15-v16) x 4580 / 6570 50h v80" v14+(v13-v14) x 640 / 2010 90h v144" v13+(v12-v13) x 320 / 1280 d0h v208" v12+(v11-v12) x 380 / 810 11h v17" v16+(v15-v16) x 4750 / 6570 51h v81" v14+(v13-v14) x 675 / 2010 91h v145" v13+(v12-v13) x 340 / 1280 d1h v209" v12+(v11-v12) x 405 / 810 12h v18" v16+(v15-v16) x 4910 / 6570 52h v82" v14+(v13-v14) x 710 / 2010 92h v146" v13+(v12-v13) x 360 / 1280 d2h v210" v12+(v11-v12) x 430 / 810 13h v19" v16+(v15-v16) x 5060 / 6570 53h v83" v14+(v13-v14) x 745 / 2010 93h v147" v13+(v12-v13) x 380 / 1280 d3h v211" v12+(v11-v12) x 455 / 810 14h v20" v16+(v15-v16) x 5210 / 6570 54h v84" v14+(v13-v14) x 780 / 2010 94h v148" v13+(v12-v13) x 400 / 1280 d4h v212" v12+(v11-v12) x 480 / 810 15h v21" v16+(v15-v16) x 5350 / 6570 55h v85" v14+(v13-v14) x 815 / 2010 95h v149" v13+(v12-v13) x 420 / 1280 d5h v213" v12+(v11-v12) x 505 / 810 16h v22" v16+(v15-v16) x 5480 / 6570 56h v86" v14+(v13-v14) x 850 / 2010 96h v150" v13+(v12-v13) x 440 / 1280 d6h v214" v12+(v11-v12) x 530 / 810 17h v23" v16+(v15-v16) x 5610 / 6570 57h v87" v14+(v13-v14) x 880 / 2010 97h v151" v13+(v12-v13) x 460 / 1280 d7h v215" v12+(v11-v12) x 555 / 810 18h v24" v16+(v15-v16) x 5730 / 6570 58h v88" v14+(v13-v14) x 910 / 2010 98h v152" v13+(v12-v13) x 480 / 1280 d8h v216" v12+(v11-v12) x 580 / 810 19h v25" v16+(v15-v16) x 5850 / 6570 59h v89" v14+(v13-v14) x 940 / 2010 99h v153" v13+(v12-v13) x 500 / 1280 d9h v217" v12+(v11-v12) x 605 / 810 1ah v26" v16+(v15-v16) x 5960 / 6570 5ah v90" v14+(v13-v14) x 970 / 2010 9ah v154" v13+(v12-v13) x 520 / 1280 dah v218" v12+(v11-v12) x 630 / 810 1bh v27" v16+(v15-v16) x 6070 / 6570 5bh v91" v14+(v13-v14) x 1000 / 2010 9bh v155" v13+(v12-v13) x 540 / 1280 dbh v219" v12+(v11-v12) x 660 / 810 1ch v28" v16+(v15-v16) x 6180 / 6570 5ch v92" v14+(v13-v14) x 1030 / 2010 9ch v156" v13+(v12-v13) x 560 / 1280 dch v220" v12+(v11-v12) x 690 / 810 1dh v29" v16+(v15-v16) x 6280 / 6570 5dh v93" v14+(v13-v14) x 1060 / 2010 9dh v157" v13+(v12-v13) x 580 / 1280 ddh v221" v12+(v11-v12) x 720 / 810 1eh v30" v16+(v15-v16) x 6380 / 6570 5eh v94" v14+(v13-v14) x 1090 / 2010 9eh v158" v13+(v12-v13) x 600 / 1280 deh v222" v12+(v11-v12) x 750 / 810 1fh v31" v16+(v15-v16) x 6480 / 6570 5fh v95" v14+(v13-v14) x 1120 / 2010 9fh v159" v13+(v12-v13) x 620 / 1280 dfh v223" v12+(v11-v12) x 780 / 810 20h v32" v15 60h v96" v14+(v13-v14) x 1150 2010 a0h v160" v13+(v12-v13) x 640 1280 e0h v224" v11 21h v33" v15+(v14-v15) x 90 / 2030 61h v97" v14+(v13-v14) x 1180 / 2010 a1h v161" v13+(v12-v13) x 660 / 1280 e1h v225" v11+(v10-v11) x 30 / 2940 22h v34" v15+(v14-v15) x 180 / 2030 62h v98" v14+(v13-v14) x 1210 / 2010 a2h v162" v13+(v12-v13) x 680 / 1280 e2h v226" v11+(v10-v11) x 70 / 2940 23h v35" v15+(v14-v15) x 260 / 2030 63h v99" v14+(v13-v14) x 1240 / 2010 a3h v163" v13+(v12-v13) x 700 / 1280 e3h v227" v11+(v10-v11) x 110 / 2940 24h v36" v15+(v14-v15) x 340 / 2030 64h v100" v14+(v13-v14) x 1270 / 2010 a4h v164" v13+(v12-v13) x 720 / 1280 e4h v228" v11+(v10-v11) x 150 / 2940 25h v37" v15+(v14-v15) x 420 / 2030 65h v101" v14+(v13-v14) x 1300 / 2010 a5h v165" v13+(v12-v13) x 740 / 1280 e5h v229" v11+(v10-v11) x 190 / 2940 26h v38" v15+(v14-v15) x 500 / 2030 66h v102" v14+(v13-v14) x 1330 / 2010 a6h v166" v13+(v12-v13) x 760 / 1280 e6h v230" v11+(v10-v11) x 230 / 2940 27h v39" v15+(v14-v15) x 575 / 2030 67h v103" v14+(v13-v14) x 1360 / 2010 a7h v167" v13+(v12-v13) x 780 / 1280 e7h v231" v11+(v10-v11) x 280 / 2940 28h v40" v15+(v14-v15) x 650 / 2030 68h v104" v14+(v13-v14) x 1390 / 2010 a8h v168" v13+(v12-v13) x 800 / 1280 e8h v232" v11+(v10-v11) x 330 / 2940 29h v41" v15+(v14-v15) x 720 / 2030 69h v105" v14+(v13-v14) x 1420 / 2010 a9h v169" v13+(v12-v13) x 820 / 1280 e9h v233" v11+(v10-v11) x 380 / 2940 2ah v42" v15+(v14-v15) x 790 / 2030 6ah v106" v14+(v13-v14) x 1450 / 2010 aah v170" v13+(v12-v13) x 840 / 1280 eah v234" v11+(v10-v11) x 440 / 2940 2bh v43" v15+(v14-v15) x 860 / 2030 6bh v107" v14+(v13-v14) x 1480 / 2010 abh v171" v13+(v12-v13) x 860 / 1280 ebh v235" v11+(v10-v11) x 500 / 2940 2ch v44" v15+(v14-v15) x 930 / 2030 6ch v108" v14+(v13-v14) x 1510 / 2010 ach v172" v13+(v12-v13) x 880 / 1280 ech v236" v11+(v10-v11) x 560 / 2940 2dh v45" v15+(v14-v15) x 995 / 2030 6dh v109" v14+(v13-v14) x 1540 / 2010 adh v173" v13+(v12-v13) x 900 / 1280 edh v237" v11+(v10-v11) x 630 / 2940 2eh v46" v15+(v14-v15) x 1060 / 2030 6eh v110" v14+(v13-v14) x 1570 / 2010 aeh v174" v13+(v12-v13) x 920 / 1280 eeh v238" v11+(v10-v11) x 700 / 2940 2fh v47" v15+(v14-v15) x 1120 / 2030 6fh v111" v14+(v13-v14) x 1595 / 2010 afh v175" v13+(v12-v13) x 940 / 1280 efh v239" v11+(v10-v11) x 780 / 2940 30h v48" v15+(v14-v15) x 1180 / 2030 70h v112" v14+(v13-v14) x 1620 / 2010 b0h v176" v13+(v12-v13) x 960 / 1280 f0h v240" v11+(v10-v11) x 860 / 2940 31h v49" v15+(v14-v15) x 1240 / 2030 71h v113" v14+(v13-v14) x 1645 / 2010 b1h v177" v13+(v12-v13) x 980 / 1280 f1h v241" v11+(v10-v11) x 950 / 2940 32h v50" v15+(v14-v15) x 1300 / 2030 72h v114" v14+(v13-v14) x 1670 / 2010 b2h v178" v13+(v12-v13) x 1000 / 1280 f2h v242" v11+(v10-v11) x 1050 / 2940 33h v51" v15+(v14-v15) x 1360 / 2030 73h v115" v14+(v13-v14) x 1695 / 2010 b3h v179" v13+(v12-v13) x 1020 / 1280 f3h v243" v11+(v10-v11) x 1150 / 2940 34h v52" v15+(v14-v15) x 1420 / 2030 74h v116" v14+(v13-v14) x 1720 / 2010 b4h v180" v13+(v12-v13) x 1040 / 1280 f4h v244" v11+(v10-v11) x 1260 / 2940 35h v53" v15+(v14-v15) x 1475 / 2030 75h v117" v14+(v13-v14) x 1745 / 2010 b5h v181" v13+(v12-v13) x 1060 / 1280 f5h v245" v11+(v10-v11) x 1380 / 2940 36h v54" v15+(v14-v15) x 1530 / 2030 76h v118" v14+(v13-v14) x 1770 / 2010 b6h v182" v13+(v12-v13) x 1080 / 1280 f6h v246" v11+(v10-v11) x 1510 / 2940 37h v55" v15+(v14-v15) x 1585 / 2030 77h v119" v14+(v13-v14) x 1795 / 2010 b7h v183" v13+(v12-v13) x 1100 / 1280 f7h v247" v11+(v10-v11) x 1650 / 2940 38h v56" v15+(v14-v15) x 1640 / 2030 78h v120" v14+(v13-v14) x 1820 / 2010 b8h v184" v13+(v12-v13) x 1120 / 1280 f8h v248" v11+(v10-v11) x 1800 / 2940 39h v57" v15+(v14-v15) x 1690 / 2030 79h v121" v14+(v13-v14) x 1845 / 2010 b9h v185" v13+(v12-v13) x 1140 / 1280 f9h v249" v11+(v10-v11) x 1960 / 2940 3ah v58" v15+(v14-v15) x 1740 / 2030 7ah v122" v14+(v13-v14) x 1870 / 2010 bah v186" v13+(v12-v13) x 1160 / 1280 fah v250" v11+(v10-v11) x 2130 / 2940 3bh v59" v15+(v14-v15) x 1790 / 2030 7bh v123" v14+(v13-v14) x 1895 / 2010 bbh v187" v13+(v12-v13) x 1180 / 1280 fbh v251" v11+(v10-v11) x 2310 / 2940 3ch v60" v15+(v14-v15) x 1840 / 2030 7ch v124" v14+(v13-v14) x 1920 / 2010 bch v188" v13+(v12-v13) x 1200 / 1280 fch v252" v11+(v10-v11) x 2500 / 2940 3dh v61" v15+(v14-v15) x 1890 / 2030 7dh v125" v14+(v13-v14) x 1945 / 2010 bdh v189" v13+(v12-v13) x 1220 / 1280 fdh v253" v11+(v10-v11) x 2710 / 2940 3eh v62" v15+(v14-v15) x 1940 / 2030 7eh v126" v14+(v13-v14) x 1970 / 2010 beh v190" v13+(v12-v13) x 1240 / 1280 feh v254" v10 3fh v63" v15+(v14-v15) x 1985 / 2030 7fh v127" v14+(v13-v14) x 1990 / 2010 bfh v191" v13+(v12-v13) x 1260 / 1280 ffh v255" v9 output voltage output voltage output voltage output voltage
preliminary product information s16450ej1v0pm00 10 pd160083 5. relationship between input data and output pin data format: 8 bits 1 rgb (3 dots) input width: 12 bits x double edge (1-pixel data) (1) r,/l = h (right shift) output s 1 s 2 s 3 s 4 !!! s 479 s 480 data d 00p -d 03p , d 00n -d 03n d 10p -d 13p , d 10n -d 13n d 20p -d 23p , d 20n -d 23n d 00p -d 03p , d 00n -d 03n !!! d 10p -d 13p , d 10n -d 13n d 20p -d 23p , d 20n -d 23n (2) r,/l = l (left shift) output s 1 s 2 s 3 s 4 !!! s 479 s 480 data d 00p -d 03p , d 00n -d 03n d 10p -d 13p , d 10n -d 13n d 20p -d 23p , d 20n -d 23n d 00p -d 03p , d 00n -d 03n !!! d 10p -d 13p , d 10n -d 13n d 20p -d 23p , d 20n -d 23n pol s 2n ? 1 note s 2n note hv 0 -v 8 v 9 -v 17 lv 9 -v 17 v 0 -v 8 note s 2n-1 (odd output), s 2n (even output) , n = 1, 2, ? 240 6. data inversion (inv) inv controls the internal data inversion. when inv = h, the internal data is inverted and clk is not inverted (see the figure as below). using the inv pin, the rsds data bus interface can be changed. d00n clkn pd160083 pd160083 rsds receiver data register d00p d23p d23n clkp d00p d00n d23p d23n clkp clkn inv = h inv = l rsds receiver data register
preliminary product information s16450ej1v0pm00 11 pd160083 7. timing chart and relationship between 8-bit data and data bus line clk (differential) (differential) sthr s 1 (2) s 1 (1) s 1 (0) s 4 (0) s 4 (1) s 7 (0) s 7 (1) t hold2 t hold1 t hold1 t setup2 t setup1 t setup1 d 00 (differential) d 01 (differential) d 02 (differential) d 03 (differential) d 10 (differential) d 11 (differential) d 12 (differential) d 13 (differential) d 20 (differential) d 21 (differential) d 22 (differential) d 23 s 1 (3) s 4 (2) s 4 (3) s 7 (2) s 7 (3) s 1 (4) s 1 (6) s 2 (0) s 2 (2) s 2 (4) s 2 (6) s 3 (0) s 3 (2) s 3 (4) s 3 (6) s 3 (7) s 6 (6) s 6 (7) s 9 (6) s 9 (7) s 3 (5) s 6 (4) s 6 (5) s 9 (4) s 9 (5) s 3 (3) s 6 (2) s 6 (3) s 9 (2) s 9 (3) s 3 (1) s 6 (0) s 6 (1) s 9 (0) s 9 (1) s 2 (7) s 5 (6) s 5 (7) s 8 (6) s 8 (7) s 2 (5) s 5 (4) s 5 (5) s 8 (4) s 8 (5) s 2 (3) s 5 (2) s 5 (3) s 8 (2) s 8 (3) s 2 (1) s 5 (0) s 5 (1) s 8 (0) s 8 (1) s 1 (7) s 4 (6) s 4 (7) s 7 (6) s 7 (7) s 1 (5) s 4 (4) s 4 (5) s 7 (4) s 7 (5) remark s n(0) : lsb, s n(7) : msb
preliminary product information s16450ej1v0pm00 12 pd160083 8. relationship between mode, stb, pol, mode1 to mode3 and output waveform the pd160083 has a various kind of output short function that can be controlled by mode1 to mode3. please refer to the following description of each function and decide mode1 to mode3 after considering the suitable driving method. mode1 mode2 mode3 charge sharing description of output short h or open x x non-active output short doesn ? t work h or open x active during stb = h h or open active during 34 clks after falling edge of stb l l l active during 68 clks after falling edge of stb remark x: h or l (1) mode1 = h or open all outputs always become hi-z condition during stb = h at this mode. and output short function doesn ? t work and all output always start at the falling edge of stb (see figure 8 ? 1). figure 8 ? ? ? ? 1. mode1 = h or open stb v out (odd) v out (even) pol hi-z hi-z hi-z v 0 -v 8 v 9 -v 17 v 9 -v 17 v 0 -v 8 v 0 -v 8 v 9 -v 17 : repair amp. output remark
preliminary product information s16450ej1v0pm00 13 pd160083 (2) mode1 = l, mode2 = h or open output short function works during stb = h at this mode. so all outputs are started at the falling edge of stb (see figure 8 ? 2). but output short function works only when pol signal is changed. so all output become hi-z condition during stb = h without any change of pol signal (see figure 8 ? 2). figure 8 ? ? ? ? 2. mode1 = l, mode2 = h or open stb v out (odd) v out (even) pol output reset output reset hi-z v 0 - v 8 v 9 - v 17 v 9 - v 17 v 9 - v 17 v 0 - v 8 v 0 - v 8 : repair amp. output remark
preliminary product information s16450ej1v0pm00 14 pd160083 (3) mode1 = l, mode2 = l all output always become hi-z condition during stb = h in this mode. and output short function works at the falling edge of stb during requested period by mode3. at mode3 = h, the driver ic counts 34 clks of output short period by itsself, and count 68 clks at mode = l. after finishing the output short period, the gray-scale voltage to the lcd panel is started. when pol signal is not changed, the gray-scale voltage to the lcd panel is started at the falling edge of stb without any change of pol signal (see figure 8 ? 3). mode3 output short period h or open 34 clks l 68 clks remark mode1 = l, mode2 = l figure 8 ? ? ? ? 3. mode1 = l, mode2 = l stb v out (odd) v out (even) pol v 0 - v 8 v 9 - v 17 v 9 - v 17 v 9 - v 17 v 0 - v 8 v 0 - v 8 output reset (34/68_clks) output reset (34/68_clks) hi-z hi-z hi-z : repair amp. output remark
preliminary product information s16450ej1v0pm00 15 pd160083 9. electrical specifications absolute maximum ratings (t a = +25 c, v ss1d , v ss1a = v ss2 = 0 v) parameter symbol ratings unit logic part supply voltage v dd1d , v dd1a ? 0.5 to +4.0 v driver part supply voltage v dd2 ? 0.5 to +14.0 v logic part input voltage v i1 ? 0.5 to v dd1 + 0.5 v driver part input voltage v i2 ? 0.3 to v dd2 + 0.3 v logic part output voltage v o1 ? 0.5 to v dd1 + 0.5 v driver part output voltage v o2 ? 0.5 to v dd2 + 0.5 v operating ambient temperature t a ? 10 to +75 c storage temperature t stg ? 55 to +125 c caution product quality may suffer if the absolute maximum rating is exceeded even momentarily for any parameter. that is, the absolute maximum ratings are rated values at which the product is on the verge of suffering physical damage, and therefore the product must be used under conditions that ensure that the absolute maximum ratings are not exceeded. recommended operating range (t a = ? 10 to +75 c, v ss1d , v ss1a = v ss2 = 0 v) parameter symbol conditions min. typ. max. unit logic part supply voltage v dd1d , v dd1a 2.7 3.3 3.6 v driver part supply voltage v dd2 10.5 12.0 13.5 v high-level input voltage 1 v ih1 0.7 v dd1 v dd1 v low-level input voltage 1 v il1 0 0.3 v dd1 v high-level input voltage 2 (differential :v rsds p-v rsds n) v ih2 +100 +200 mv low-level input voltage 2 (differential :v rsds p-v rsds n) v il2 v cm = 1.2 v note ? 200 ? 100 mv common mode input voltage v cm clk, d xy (x = 0 to 2) (y = 0 to 3) v off = 200 mv p-p note 0.5 1.2 1.4 v driver part output voltage v o s 1 to s 480 , rpo1, rpo2 0.1 v dd2 ? 0.1 v v 0 -v 8 0.5 v dd2 v dd2 ? 0.1 v -corrected voltage v nv v 9- v 17 0.1 0.5 v dd2 v v dd1 = 2.7 v 70 mhz clock frequency f clk v dd1 = 3.0 v 85 mhz note v rsds n (clkn, dxxn) v rsds p (clkp, dxxp) v rsds p-v rsds n (internal clk, data) vcm rsds v ih2 = +100 mv min. internal logic ll hh 0 v v il2 = ? 100 mv max. vcm = (vclkp + vclkn) /2 or = (vdxxp + vdxxn) /2 (x = 0, 1, 2) vdiff = (vclkp ? vclkn) /2 or = (vdxxp ? vdxxn) /2 (x = 0, 1, 2) remark
preliminary product information s16450ej1v0pm00 16 pd160083 electrical characteristics (t a = ? 10 to +75 c, v dd1 = 2.7 to 3.6v, v dd2 = 10.5 to 13.5 v , v ss1 = v ss2 = 0 v) parameter symbol condition min. typ. max. unit input leak current i il 1.0 a high-level output voltage v oh sthr (sthl), i oh = 0 ma v dd1 ? 0.4 v dd1 v low-level output voltage v ol sthr (sthl), i ol = 0 ma v ss1 v ss1 + 0.4 v -corrected resistance r v dd2 = 12.0 v, t a = 25 c, v 0 -v 8 = v 9 -v 17 = 5.0 v 11.91 17.02 22.13 k ? pull-up/pull-down resistance r pu v dd1 = 3.3 v, mode1 to mode3, lpc, test 80 200 500 k ? i voh v x = 11 v, v out = 10.5 v note1 ? 70 a driver output current i vol s 1 to s 480 , rpo1, rpo2, v dd2 = 12 v v x = 1.0 v, v out = 1.5 v note1 70 a v o = 1.5 v to v dd2 ? 1.5 v. 12 20 mv output voltage deviation (dv o ) ? v o v o = 0.1 to 1.5 v, v o = v dd2 ? 1.5 v to v dd2 ? 0.1 v 40 50 mv ? v p ? p1 v o = 1.5 v to v dd2 ? 1.5 v 6 10 mv output swing voltage difference deviation (dv rms ) ? v p ? p2 v o = 0.1 to 1.5 v, v o = v dd2 ? 1.5 v to v dd2 ? 0.1 v 30 50 mv output swing voltage average deviation av o input data: 80h 1 7.5 mv logic part dynamic current consumption 1 i dd11 v dd1 note1 to note3 2.5 note2 6.0 note3 ma logic part dynamic current consumption 2 i dd12 v dd1, note1 to note3 2.0 note4 6.0 note5 ma driver part dynamic current consumption i dd2 v dd2 , with no load, rpi1, rpi2 are not floating 15.0 note6 45.0 note7 ma notes 1. v x refers to the otuput voltage of analog output pins s 1 to s 384 . v out refers to the voltage applied to analog output pins s 1 to s 384 . 2. f clkp , f clkn = 67.5 mhz, f stb = 80.0 khz, test pattern = dot inversion, t a = 25 c, v dd1 = 3.0 v 3. f clkp , f clkn = 67.5 mhz, f stb = 80.0 khz, test pattern = dot inversion, v dd1 = 3.6 v 4. f clkp , f clkn = 54.0 mhz, f stb = 64.9 khz, test pattern = dot inversion, t a = 25 c, v dd1 = 3.0v 5. f clkp , f clkn = 54.0 mhz, f stb = 64.9 khz, test pattern = dot inversion, v dd1 = 3.6 v 6. f clkp , f clkn = 67.5 mhz, f stb = 80.0 khz, test pattern = dot inversion, t a = 25 c, v dd2 = 12.0 v 7. f clkp , f clkn = 67.5 mhz, f stb = 80.0 khz, test pattern = dot inversion, v dd2 = 13.5 v
preliminary product information s16450ej1v0pm00 17 pd160083 switching characteristics (t a = ? 10 to +75 c, v dd1 = 2.7 to 3.6v, v dd2 = 10.5 to 13.5 v, v ss1 = v ss2 = 0 v) parameter symbol condition min. typ. max. unit v dd1 < 3.0 v 4 12.5 ns start pulse delay time t plh1 c l = 15 pf v dd1 3.0 v 4 10.0 ns t plh2 note1 45 s t plh3 note2 58 s t phl2 note1 45 s t phl3 note2 58 s t plh4 note1 45 s t plh5 note2 58 s t phl4 note1 45 s driver output delay time t phl5 note2 v dd2 = 12.0 v, rpo1, rpo2, s 1 to s 480 , r l = 9 k ? , c l = 80 pf 58 s c i1 logic input besides sthr (sthl), t a = 25 c 10 pf input capacitance c i2 sthr (sthl),t a = 25 c15pf notes 1. the value is specified when the drive voltage valuw reaches the target output voltage level of 10%. 2. the value is specified when the drive voltage valuw reaches the target output voltage level of 0.02 v (condition: v o = 3.0 v ? 12.0 v). c l1 c l2 c l3 r l3 r l2 r l5 r l1 = 2.6 k ? r l2 to r l5 = 1.6 k ? c ln = 16 pf c l4 r l4 c l5 r l1 v com = 0.5 v dd2 output measurement point
preliminary product information s16450ej1v0pm00 18 pd160083 timing requirement (t a = ? 10 to +75 c, v dd1 = 2.7 to 3.6v, v ss1 = 0 v, t r = t f = 3.0 ns (cmos), t r = t f = 1.0 ns (rsds)) parameter symbol condition min. typ. max. unit v dd1 = 2.7 v 14.3 ns clock period pw clk v dd1 = 3.0 v 11.8 ns clock pulse high period pw clk(h) 5ns clock pulse low period pw clk(l) 5ns v dd1 = 2.7 v 3 ns data setup time t setup1 v dd1 = 3.0 v 2 ns v dd1 = 2.7 v 1 ns data hold time t hold1 v dd1 = 3.0 v 0 ns start pulse setup time t setup2 1ns start pulse hold time t hold2 3ns start pulse ? h ? width pw sth 12clkp stb pulse ? h ? width pw stb 1us last data timing t ldt 1clkp stb-clk time t stb-clk stb clkp, clkn 3ns time between stb and start pulse t stb-sth stb sthr (sthl) 5clkp pol-stb time t pol-stb pol or stb 14 ns stb-pol time t stb-pol stb pol or 10 ns remark t r , t f are defined 10 to 90% of each signal amplitude.
preliminary product information s16450ej1v0pm00 19 pd160083 switching characteristics waveform (r,/l = h) unless otherwise specified, the input level is defined to be v ih = 0.7 v dd1 , v il = 0.3 v dd1 at cmos signal and 0 v at differential signal (rsds). pw clk(l) clk (differential) pol s 1 to s 480 stb sthr (1st dr.) pw clk(h) t setup2 t hold2 123 pw clk t stb-sth t plh1 t pol-stb t plh3 t phl2 hi-z t ldt pw stb invalid t setup1 t hold1 t stb-clk t phl3 t plh2 t stb- pol even odd 160 161 even odd even t phl1 sthl (1st dr.) last data 1 rpo1, rpo2 t plh4 t plh5 2 t r t f 0 v v ss1 v dd1 v ss1 v dd1 v ss1 v dd1 v ss1 v dd1 invalid t phl4 t phl5 pw sth odd t r t f 10% 90% 10% d n0 to d n3 (differential) 0.3 v dd1 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 10% 90% 10% 0.7 v dd1 0.7 v dd1 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0.7 v dd1 0.7 v dd1
preliminary product information s16450ej1v0pm00 20 pd160083 pw clk(l) clk (differential) pol s 1 to s 480 stb d n0p to d n2p (differential) sthr (1st dr.) pw clk(h) t setup2 t hold2 12 3 pw clk t stb-sth t plh1 t pol- stb t plh3 t phl2 t ldt pw stb invalid t setup1 t hold1 t stb-clk t phl3 t plh2 t stb- pol even odd 160 161 even odd even t ph l1 sthl (1st dr.) last da ta 1 rpo1, rpo2 t plh4 t plh5 2 t r t f 0 v 0 v v ss1 v dd1 v ss1 v dd1 v ss1 v dd1 v ss1 v dd1 invalid t phl4 t phl5 pw sth odd output reset 90% 10% 10% 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0 v 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 0.3 v dd1 0.7 v dd1 10% 10% 90% t r t f 0.7 v dd1 0.7 v dd1 0.7 v dd1
preliminary product information s16450ej1v0pm00 21 pd160083 10. recommended mounting conditions the following conditions must be met for mounting conditions of the pd160010. for more details, refer to the [semiconductor device mount manual] (http://www.necel.com/pkg/en/mount/index.html) please consult with our sales offices in case other mounting process is used, or in case the mounting is done under different conditions. pd160083n- xxx: tcp (tab package) mounting condition mounting method condition thermocompression soldering heating tool 300 to 350 c, heating for 2 to 3 sec, pressure 100g (per solder). acf (adhesive conductive film) temporary bonding 70 to 100 c, pressure 3 to 8 kg/cm 2 , time 3 to 5 sec. real bonding 165 to 180 c pressure 25 to 45 kg/cm 2 , time 30 to 40 sec. (when using the anisotropy conductive film sumizac1003 of sumitomo bakelite, ltd.) caution to find out the detailed conditions for mounting the acf part, please contact the acf manufacturing company. be sure to avoid using two or more mounting methods at a time.
preliminary product information s16450ej1v0pm00 22 pd160083 notes for cmos devices 1 precaution against esd for semiconductors note: strong electric field, when exposed to a mos device, can cause destruction of the gate oxide and ultimately degrade the device operation. steps must be taken to stop generation of static electricity as much as possible, and quickly dissipate it once, when it has occurred. environmental control must be adequate. when it is dry, humidifier should be used. it is recommended to avoid using insulators that easily build static electricity. semiconductor devices must be stored and transported in an anti-static container, static shielding bag or conductive material. all test and measurement tools including work bench and floor should be grounded. the operator should be grounded using wrist strap. semiconductor devices must not be touched with bare hands. similar precautions need to be taken for pw boards with semiconductor devices on it. 2 handling of unused input pins for cmos note: no connection for cmos device inputs can be cause of malfunction. if no connection is provided to the input pins, it is possible that an internal input level may be generated due to noise, etc., hence causing malfunction. cmos devices behave differently than bipolar or nmos devices. input levels of cmos devices must be fixed high or low by using a pull-up or pull-down circuitry. each unused pin should be connected to v dd or gnd with a resistor, if it is considered to have a possibility of being an output pin. all handling related to the unused pins must be judged device by device and related specifications governing the devices. 3 status before initialization of mos devices note: power-on does not necessarily define initial status of mos device. production process of mos does not define the initial operation status of the device. immediately after the power source is turned on, the devices with reset function have not yet been initialized. hence, power-on does not guarantee out-pin levels, i/o settings or contents of registers. device is not initialized until the reset signal is received. reset operation must be executed immediately after power-on for devices having reset function.

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